Electrical Engineering (BS)
Electrical engineering is the driving force behind the technological innovations that will shape the future. It's the realm where the boundaries of possibility are constantly pushed, as engineers harness the power of electricity, electronics, and electromagnetism to forge new pathways towards progress. In this dynamic field, engineers are crafting the infrastructure of tomorrow's world, where renewable energy sources fuel our cities, smart grids optimize and secure power distribution, electric vehicles revolutionize transportation, and innovations in biomedical devices dramatically improve the quality of life.
Moreover, with the rapid advancement of electronics and telecommunications, electrical engineers are at the forefront of creating the next generation of connected devices, from wearables to Internet of Things ecosystems, that will enhance our lives and transform industries. As we race into the future, electrical engineers are poised to drive innovation, sustainability, and connectivity, propelling humanity toward new heights of technological achievement and societal advancement.
Core Courses
The electrical and computer engineering curricula share core courses comprising a substantial portion of the first three years of study. Many of the core courses are offered three times a year in fall, spring, and summer. A strong emphasis is placed on fundamental concepts in core courses so that graduates are prepared for rapid technological changes common in the electrical and computer engineering professions. A comprehensive foundation in mathematics and the physical sciences in the freshman year is followed in subsequent years by additional core courses in mathematics, physics, electric circuit theory, digital logic, computer systems, electronics, electromagnetics, and linear systems. Laboratory work is designed to demonstrate fundamental principles and to provide experience in designing and testing electronic hardware and computer software. Both curricula have a required two semester senior design project which gives students comprehensive experience in designing, building, and testing physical systems.
Curricula
In addition to the core courses described above, students in the electrical engineering curriculum take two foundational electives and four specialization electives in areas of their choice within the discipline and two technical electives that can be in either electrical engineering or selected engineering courses offered by other departments. Additionally, a variety of elective courses are offered in communications, computational intelligence, controls, digital signal processing, digital systems, nanotechnology, mechatronics, microelectronics, networking, robotics, and VLSI design. There are typically a dozen or more of these courses offered each fall and spring semester and two or three available each summer.
Plan Requirements
First Year | ||
---|---|---|
Fall Semester | Hours | |
CH 101 | Chemistry - A Molecular Science 1 | 3 |
CH 102 | General Chemistry Laboratory 1 | 1 |
E 101 | Introduction to Engineering & Problem Solving 2 | 1 |
E 115 | Introduction to Computing Environments | 1 |
ENG 101 | Academic Writing and Research 2 | 4 |
MA 141 | Calculus I 1 | 4 |
Hours | 14 | |
Spring Semester | ||
ECE 109 | Introduction to Computer Systems 2 | 3 |
MA 241 | Calculus II 1 | 4 |
PY 205 & PY 206 | Physics for Engineers and Scientists I and Physics for Engineers and Scientists I Laboratory 1 | 4 |
Select one of the following Economics Courses: | 3 | |
Introduction to Agricultural & Resource Economics | ||
Introduction to Agricultural & Resource Economics | ||
Principles of Microeconomics | ||
Fundamentals of Economics | ||
E 102 | Engineering in the 21st Century | 2 |
Hours | 16 | |
Second Year | ||
Fall Semester | ||
ECE 200 | Introduction to Signals, Circuits and Systems 2 | 4 |
ECE 209 | Computer Systems Programming 2 | 3 |
MA 242 | Calculus III | 4 |
PY 208 & PY 209 | Physics for Engineers and Scientists II and Physics for Engineers and Scientists II Laboratory | 4 |
Hours | 15 | |
Spring Semester | ||
COM 110 | Public Speaking | 3 |
ECE 211 | Electric Circuits 2 | 4 |
ECE 212 | Fundamentals of Logic Design 2 | 3 |
ECE 220 | Analytical Foundations of Electrical and Computer Engineering 2 | 3 |
Hours | 13 | |
Third Year | ||
Fall Semester | ||
ECE 301 | Linear Systems | 3 |
ECE 302 | Microelectronics | 4 |
ST 371 | Introduction to Probability and Distribution Theory | 3 |
Select two of the following ECE Foundation Electives: | 6 | |
Introduction to Nano Science and Technology | ||
Principles of Electromechanical Energy Conversion | ||
Introduction to Embedded Systems or Design of Complex Digital Systems | ||
Elements of Control Systems | ||
Hours | 16 | |
Spring Semester | ||
ECE 303 | Electromagnetic Fields | 3 |
Select one of the following: | 1 | |
Engineering Profession for Electrical Engineers | ||
Engineering Profession for Computer Engineers | ||
Introduction to Entrepreneurship and New Product Development | ||
EE Electives | 6 | |
Choose 2 from the same group of "Comm, Sig, Proc Sys" or "Control Sys" or "Circ, E&M Sys" or "Nano Sys" or "Power Sys" from the ECE and EE Electives List below | ||
ENG 331 | Communication for Engineering and Technology | 3 |
Hours | 13 | |
Fourth Year | ||
Fall Semester | ||
Select one of the following Senior Design Project I courses: | 3 | |
Engineering Entrepreneurship and New Product Development I | ||
Electrical and Computer Engineering Senior Design I | ||
ECE Electives | 6 | |
Hours | 9 | |
Spring Semester | ||
Select one of the following Senior Design Project II courses: | 3 | |
Engineering Entrepreneurship and New Product Development II | ||
Electrical and Computer Engineering Senior Design II | ||
Open/Technical Electives | 6 | |
Hours | 9 | |
Total Hours | 105 |
- 1
A grade of C or higher is required.
- 2
A grade of C- or higher is required.
Code | Title | Hours | Counts towards |
---|---|---|---|
GEP Courses | |||
GEP Humanities | 6 | ||
GEP Social Sciences | 3 | ||
GEP Health and Exercise Studies | 2 | ||
GEP US Diversity, Equity, and Inclusion | 3 | ||
GEP Interdisciplinary Perspectives | 3 | ||
GEP Global Knowledge (verify requirement) | |||
World Language Proficiency (verify requirement) | |||
Total Hours | 17 |
EE Electives
Code | Title | Hours | Counts towards |
---|---|---|---|
ECE and EE Electives | |||
Comm, Sig, Proc Sys | |||
Communications Engineering | |||
Introduction to Signal Processing | |||
Introduction to Machine Learning | |||
Wireless Communication Systems | |||
Introduction to Signal Processing | |||
Systems Biology Modeling of Plant Regulation | |||
Advanced Digital Signal Processing | |||
Random Processes | |||
Digital Communications | |||
Neural Networks | |||
Digital Imaging Systems | |||
LTE and 5G Communications | |||
Wireless Communication Systems | |||
Control Sys | |||
Digital Control Systems | |||
Industrial Robot Systems | |||
Mechatronics | |||
System Control Engineering | |||
Medical Instrumentation | |||
Digital Control System Projects | |||
Autonomous Robot Systems | |||
Circ, E&M Sys | |||
Electronics Engineering | |||
Transmission Lines and Antennas for Wireless | |||
Radio System Design | |||
Analog Electronics Laboratory | |||
Analog Electronics | |||
ECE 532 | |||
Electromagnetic Fields | |||
Antennas and Arrays | |||
Design Of Electronic Packaging and Interconnects | |||
RF Design for Wireless | |||
Nano Sys | |||
Introduction to Solid-State Devices | |||
Wearable Biosensors and Microsystems | |||
Introduction to Photonics and Optical Communications | |||
Introduction to Integrated Circuit Technology and Fabrication | |||
Conventional and Emerging Nanomanufacturing Techniques and Their Applications in Nanosystems | |||
Solid State Solar and Thermal Energy Harvesting | |||
Neural Interface Engineering | |||
Photonics and Optical Communications | |||
Physical Electronics | |||
Principles Of Transistor Devices | |||
Integrated Circuits Technology and Fabrication | |||
Principles Of MOS Transistors | |||
Power Sys | |||
Fundamentals of Power Electronics | |||
Power System Analysis | |||
Renewable Electric Energy Systems | |||
Electric Motor Drives | |||
Power Electronics Design & Packaging | |||
Power Electronics | |||
Design of Electromechanical Systems | |||
Power System Operation and Control | |||
Smart Electric Power Distribution Systems | |||
Semiconductor Power Devices | |||
Electric Motor Drives | |||
Electric Power System Protection | |||
Electric Power Engineering Practicum I | |||
Electric Power Engineering Practicum II | |||
The Business of the Electric Utility Industry | |||
Communication and SCADA Systems for Smart Grid | |||
Power System Transients Analysis | |||
Comp Arch Sys | |||
Architecture Of Parallel Computers | |||
Microprocessor Architecture | |||
ASIC and FPGA Design with Verilog | |||
VLSI Systems Design | |||
Embed Sys | |||
Embedded System Architectures | |||
Embedded System Analysis and Optimization | |||
Networking Sys | |||
Introduction to Computer Networking | |||
Internetworking | |||
Cloud Computing Technology | |||
Computer Networks | |||
Internet Protocols | |||
Computer and Network Security | |||
Introduction to Wireless Networking | |||
Networking Services: QoS, Signaling, Processes | |||
Switched Network Management | |||
Introduction to Computer Performance Modeling | |||
Software Sys | |||
Operating Systems Design | |||
Compiler Optimization and Scheduling | |||
Object-Oriented Design and Development | |||
Special Topics | |||
Special Topics in Electrical and Computer Engineering |
ECE Electives
ECE Elective
Code | Title | Hours | Counts towards |
---|---|---|---|
ECE 402 | Communications Engineering | 3 | |
ECE 403 | Electronics Engineering | 3 | |
ECE 404 | Introduction to Solid-State Devices | 3 | |
ECE 406/506 | Architecture Of Parallel Computers | 3 | |
ECE 407 | Introduction to Computer Networking | 3 | |
ECE 410/510 | Introduction to Signal Processing | 3 | |
ECE 411 | Introduction to Machine Learning | 3 | |
ECE 418/518 | Wearable Biosensors and Microsystems | 3 | |
ECE 420 | Wireless Communication Systems | 3 | |
ECE 421 | Introduction to Signal Processing | 3 | |
ECE 422 | Transmission Lines and Antennas for Wireless | 3 | |
ECE 423 | Introduction to Photonics and Optical Communications | 3 | |
ECE 424/524 | Radio System Design | 3 | |
ECE 426 | Analog Electronics Laboratory | 3 | |
ECE 434 | Fundamentals of Power Electronics | 3 | |
ECE 436 | Digital Control Systems | 3 | |
ECE 442 | Introduction to Integrated Circuit Technology and Fabrication | 3 | |
ECE 451 | Power System Analysis | 3 | |
ECE 452/552 | Renewable Electric Energy Systems | 3 | |
ECE 453 | Electric Motor Drives | 3 | |
ECE 455 | Industrial Robot Systems | 3 | |
ECE 456/556 | Mechatronics | 3 | |
ECE 460/560 | Embedded System Architectures | 3 | |
ECE 461/561 | Embedded System Analysis and Optimization | 3 | |
ECE 463/563 | Microprocessor Architecture | 3 | |
ECE 464/564 | ASIC and FPGA Design with Verilog | 3 | |
ECE 465/565 | Operating Systems Design | 3 | |
ECE 466/566 | Compiler Optimization and Scheduling | 3 | |
ECE 468/568 | Conventional and Emerging Nanomanufacturing Techniques and Their Applications in Nanosystems | 3 | |
ECE 470 | Internetworking | 3 | |
ECE 488/588 | Systems Biology Modeling of Plant Regulation | 3 | |
ECE 489/589 | Solid State Solar and Thermal Energy Harvesting | 3 | |
ECE 492 | Special Topics in Electrical and Computer Engineering | 1-4 | |
ECE 505 | Neural Interface Engineering | 3 | |
ECE 511 | Analog Electronics | 3 | |
ECE 513 | Advanced Digital Signal Processing | 3 | |
ECE 514 | Random Processes | 3 | |
ECE 515 | Digital Communications | 3 | |
ECE 516 | System Control Engineering | 3 | |
ECE 517 | Object-Oriented Design and Development | 3 | |
ECE 522 | Medical Instrumentation | 3 | |
ECE 523 | Photonics and Optical Communications | 3 | |
ECE 530 | Physical Electronics | 3 | |
ECE 531 | Principles Of Transistor Devices | 3 | |
ECE 532 | Principles Of Microwave Circuits | 3 | |
ECE 533 | Power Electronics Design & Packaging | 3 | |
ECE 534 | Power Electronics | 3 | |
ECE 535 | Design of Electromechanical Systems | 3 | |
ECE 536 | Digital Control System Projects | 3 | |
ECE 538 | Integrated Circuits Technology and Fabrication | 3 | |
ECE 540 | Electromagnetic Fields | 3 | |
ECE 541 | Antennas and Arrays | 3 | |
ECE 542 | Neural Networks | 3 | |
ECE 544 | Design Of Electronic Packaging and Interconnects | 3 | |
ECE 546 | VLSI Systems Design | 3 | |
ECE 547 | Cloud Computing Technology | 3 | |
ECE 549 | RF Design for Wireless | 3 | |
ECE 550 | Power System Operation and Control | 3 | |
ECE 551 | Smart Electric Power Distribution Systems | 3 | |
ECE 553 | Semiconductor Power Devices | 3 | |
ECE 554 | Electric Motor Drives | 3 | |
ECE 555 | Autonomous Robot Systems | 3 | |
ECE 557 | Principles Of MOS Transistors | 3 | |
ECE 558 | Digital Imaging Systems | 3 | |
ECE 570 | Computer Networks | 3 | |
ECE 573 | Internet Protocols | 3 | |
ECE 574 | Computer and Network Security | 3 | |
ECE 575 | Introduction to Wireless Networking | 3 | |
ECE 576 | Networking Services: QoS, Signaling, Processes | 3 | |
ECE 577 | Switched Network Management | 3 | |
ECE 578 | LTE and 5G Communications | 3 | |
ECE 579 | Introduction to Computer Performance Modeling | 3 | |
ECE 581 | Electric Power System Protection | 3 | |
ECE 582 | Wireless Communication Systems | 3 | |
ECE 583 | Electric Power Engineering Practicum I | 3 | |
ECE 584 | Electric Power Engineering Practicum II | 3 | |
ECE 585 | The Business of the Electric Utility Industry | 3 | |
ECE 586 | Communication and SCADA Systems for Smart Grid | 3 | |
ECE 587 | Power System Transients Analysis | 3 | |
ECE 591 | Special Topics In Electrical Engineering | 1-6 | |
ECE 592 | Special Topics In Electrical Engineering | 1-6 |
Open/Tech Electives
Open Electives
Choose from the ECE Elective List or the other Open Electives listed below
ECE Elective
Code | Title | Hours | Counts towards |
---|---|---|---|
ECE 402 | Communications Engineering | 3 | |
ECE 403 | Electronics Engineering | 3 | |
ECE 404 | Introduction to Solid-State Devices | 3 | |
ECE 406/506 | Architecture Of Parallel Computers | 3 | |
ECE 407 | Introduction to Computer Networking | 3 | |
ECE 410/510 | Introduction to Signal Processing | 3 | |
ECE 411 | Introduction to Machine Learning | 3 | |
ECE 418/518 | Wearable Biosensors and Microsystems | 3 | |
ECE 420 | Wireless Communication Systems | 3 | |
ECE 421 | Introduction to Signal Processing | 3 | |
ECE 422 | Transmission Lines and Antennas for Wireless | 3 | |
ECE 423 | Introduction to Photonics and Optical Communications | 3 | |
ECE 424/524 | Radio System Design | 3 | |
ECE 426 | Analog Electronics Laboratory | 3 | |
ECE 434 | Fundamentals of Power Electronics | 3 | |
ECE 436 | Digital Control Systems | 3 | |
ECE 442 | Introduction to Integrated Circuit Technology and Fabrication | 3 | |
ECE 451 | Power System Analysis | 3 | |
ECE 452/552 | Renewable Electric Energy Systems | 3 | |
ECE 453 | Electric Motor Drives | 3 | |
ECE 455 | Industrial Robot Systems | 3 | |
ECE 456/556 | Mechatronics | 3 | |
ECE 460/560 | Embedded System Architectures | 3 | |
ECE 461/561 | Embedded System Analysis and Optimization | 3 | |
ECE 463/563 | Microprocessor Architecture | 3 | |
ECE 464/564 | ASIC and FPGA Design with Verilog | 3 | |
ECE 465/565 | Operating Systems Design | 3 | |
ECE 466/566 | Compiler Optimization and Scheduling | 3 | |
ECE 468/568 | Conventional and Emerging Nanomanufacturing Techniques and Their Applications in Nanosystems | 3 | |
ECE 470 | Internetworking | 3 | |
ECE 488/588 | Systems Biology Modeling of Plant Regulation | 3 | |
ECE 489/589 | Solid State Solar and Thermal Energy Harvesting | 3 | |
ECE 492 | Special Topics in Electrical and Computer Engineering | 1-4 | |
ECE 505 | Neural Interface Engineering | 3 | |
ECE 511 | Analog Electronics | 3 | |
ECE 513 | Advanced Digital Signal Processing | 3 | |
ECE 514 | Random Processes | 3 | |
ECE 515 | Digital Communications | 3 | |
ECE 516 | System Control Engineering | 3 | |
ECE 517 | Object-Oriented Design and Development | 3 | |
ECE 522 | Medical Instrumentation | 3 | |
ECE 523 | Photonics and Optical Communications | 3 | |
ECE 530 | Physical Electronics | 3 | |
ECE 531 | Principles Of Transistor Devices | 3 | |
ECE 532 | Principles Of Microwave Circuits | 3 | |
ECE 533 | Power Electronics Design & Packaging | 3 | |
ECE 534 | Power Electronics | 3 | |
ECE 535 | Design of Electromechanical Systems | 3 | |
ECE 536 | Digital Control System Projects | 3 | |
ECE 538 | Integrated Circuits Technology and Fabrication | 3 | |
ECE 540 | Electromagnetic Fields | 3 | |
ECE 541 | Antennas and Arrays | 3 | |
ECE 542 | Neural Networks | 3 | |
ECE 544 | Design Of Electronic Packaging and Interconnects | 3 | |
ECE 546 | VLSI Systems Design | 3 | |
ECE 547 | Cloud Computing Technology | 3 | |
ECE 549 | RF Design for Wireless | 3 | |
ECE 550 | Power System Operation and Control | 3 | |
ECE 551 | Smart Electric Power Distribution Systems | 3 | |
ECE 553 | Semiconductor Power Devices | 3 | |
ECE 554 | Electric Motor Drives | 3 | |
ECE 555 | Autonomous Robot Systems | 3 | |
ECE 557 | Principles Of MOS Transistors | 3 | |
ECE 558 | Digital Imaging Systems | 3 | |
ECE 570 | Computer Networks | 3 | |
ECE 573 | Internet Protocols | 3 | |
ECE 574 | Computer and Network Security | 3 | |
ECE 575 | Introduction to Wireless Networking | 3 | |
ECE 576 | Networking Services: QoS, Signaling, Processes | 3 | |
ECE 577 | Switched Network Management | 3 | |
ECE 578 | LTE and 5G Communications | 3 | |
ECE 579 | Introduction to Computer Performance Modeling | 3 | |
ECE 581 | Electric Power System Protection | 3 | |
ECE 582 | Wireless Communication Systems | 3 | |
ECE 583 | Electric Power Engineering Practicum I | 3 | |
ECE 584 | Electric Power Engineering Practicum II | 3 | |
ECE 585 | The Business of the Electric Utility Industry | 3 | |
ECE 586 | Communication and SCADA Systems for Smart Grid | 3 | |
ECE 587 | Power System Transients Analysis | 3 | |
ECE 591 | Special Topics In Electrical Engineering | 1-6 | |
ECE 592 | Special Topics In Electrical Engineering | 1-6 |
Code | Title | Hours | Counts towards |
---|---|---|---|
ECE 303 | Electromagnetic Fields | 3 | |
E 304 | Introduction to Nano Science and Technology | 3 | |
ECE 305 | Principles of Electromechanical Energy Conversion | 3 | |
ECE 306 | Introduction to Embedded Systems | 3 | |
ECE 308 | Elements of Control Systems | 3 | |
ECE 309 | Data Structures and Object-Oriented Programming for Electrical and Computer Engineers | 3 | |
ECE 310 | Design of Complex Digital Systems | 3 | |
ECE 384 | Practical Engineering Prototyping | 3 | |
CE 214 | Engineering Mechanics-Statics | 3 | |
or MAE 206 | Engineering Statics | ||
MSE 200 | Mechanical Properties of Structural Materials | 3 | |
or MSE 201 | Structure and Properties of Engineering Materials | ||
ISE 311 | Engineering Economic Analysis | 3 | |
MAE 208 | Engineering Dynamics | 3 | |
MAE 201 | Thermal-Fluid Sciences | 3 | |
MAE 302/BME 525 | Engineering Thermodynamics II | 3 |
Semester Sequence
This is a sample.
First Year | ||
---|---|---|
Fall Semester | Hours | |
CH 101 | Chemistry - A Molecular Science 1 | 3 |
CH 102 | General Chemistry Laboratory 1 | 1 |
E 101 | Introduction to Engineering & Problem Solving 1,2 | 1 |
E 115 | Introduction to Computing Environments 1,2 | 1 |
ENG 101 | Academic Writing and Research 1,2 | 4 |
MA 141 | Calculus I 1 | 4 |
GEP Requirement | 3 | |
Hours | 17 | |
Spring Semester | ||
ECE 109 | Introduction to Computer Systems 2 | 3 |
MA 241 | Calculus II 1 | 4 |
PY 205 | Physics for Engineers and Scientists I 1 | 3 |
PY 206 | Physics for Engineers and Scientists I Laboratory | 1 |
E 102 | Engineering in the 21st Century | 2 |
GEP Health and Exercise Studies | 1 | |
Hours | 14 | |
Second Year | ||
Fall Semester | ||
ECE 200 | Introduction to Signals, Circuits and Systems 2 | 4 |
ECE 209 | Computer Systems Programming 2 | 3 |
MA 242 | Calculus III | 4 |
PY 208 | Physics for Engineers and Scientists II | 3 |
PY 209 | Physics for Engineers and Scientists II Laboratory | 1 |
Hours | 15 | |
Spring Semester | ||
COM 110 | Public Speaking | 3 |
ECE 211 | Electric Circuits 2 | 4 |
ECE 212 | Fundamentals of Logic Design 2 | 3 |
ECE 220 | Analytical Foundations of Electrical and Computer Engineering 2 | 3 |
GEP Requirement | 3 | |
Hours | 16 | |
Third Year | ||
Fall Semester | ||
ECE 301 | Linear Systems | 3 |
ECE 302 | Microelectronics | 4 |
ECE Foundation Elective | 3 | |
ST 371 | Introduction to Probability and Distribution Theory | 3 |
GEP Health and Exercise Studies | 1 | |
Hours | 14 | |
Spring Semester | ||
ECE 303 | Electromagnetic Fields | 3 |
Select one of the following: | 1 | |
Engineering Profession for Electrical Engineers | ||
Engineering Profession for Computer Engineers | ||
Introduction to Entrepreneurship and New Product Development | ||
ECE Foundation Elective | 3 | |
Open/Technical Elective | 3 | |
ENG 331 | Communication for Engineering and Technology | 3 |
GEP Requirement | 3 | |
Hours | 16 | |
Fourth Year | ||
Fall Semester | ||
ECE 484 | Electrical and Computer Engineering Senior Design I | 3 |
ECE Elective | 3 | |
EE Elective | 3 | |
Open/Technical Elective | 3 | |
GEP Requirement | 3 | |
Hours | 15 | |
Spring Semester | ||
ECE 485 | Electrical and Computer Engineering Senior Design II | 3 |
EE Elective | 3 | |
ECE Elective | 3 | |
GEP Requirement | 3 | |
GEP Requirement | 3 | |
Hours | 15 | |
Total Hours | 122 |
- 1
Courses required for Change of Degree Audit (CODA). CH 101, 102; MA 141, 241; PY 205, 206 must be completed with C or higher.
- 2
A grade of C- or higher is required. E 115 requires satisfactory completion (S).
An electrical engineering degree opens the door to a variety of dynamic career opportunities at the forefront of technological innovation. Graduates can pursue roles as power systems engineers, designing and optimizing the infrastructure that delivers electricity to homes and industries.
They may delve into the world of electronics, developing cutting-edge devices and systems such as smartphones, computers, and medical devices. Control systems engineers design and implement automated systems that regulate processes in industries ranging from manufacturing to aerospace. Renewable energy specialists work at the forefront of sustainable technology, designing and implementing solar, wind, and other alternative energy systems to combat climate change.
You can design and optimize communication networks, enabling seamless connectivity in today's digital world. Moreover, with the increasing integration of electronics and software, opportunities abound in fields such as embedded systems, robotics, and the Internet of Things, where engineers create innovative solutions that blend hardware and software to tackle real-world challenges.
Whether in traditional industries or emerging fields, electrical engineering graduates are well-positioned to drive technological progress and make meaningful contributions to society.
You can see some currently hiring positions in ePack for examples of career paths.
Career Titles
- Computer Network Architects
- Control and Valve Installers and Repairers, Except Mechanical Door
- Electrical Drafter
- Electrical Engineer
- Electrical EngineeringTechnician
- Electro-Mechanical Technicians
- Electronic Drafter
- Electronics Engineer
- Electronics Technician
- Engineering Professor
- Instrument Technician
- Mechanical Drafter
- Mechatronics Engineers
- Photonics Engineers
- Radio Frequency Identification Device Specialists
- Sales Engineers
- Solar Energy Systems Engineers
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